Mineral Oxychloride vs. Conventional Oxidants
How Jenfitch mineral oxychloride (JC 9465 / JC 9450) compares to chlorine, ozone, and chlorine dioxide — oxidation potential, residual, handling, and cost, side by side, backed by documented field results.
Jenfitch mineral oxychloride oxidizes at 2.8 to 2.9 V, second only to fluorine and above chlorine dioxide at 1.57 V, ozone at 2.07 V, and chlorine at 1.36 V. These side-by-side comparisons weigh oxidation potential, residual, handling, and cost for JC 9465 and JC 9450, which ship as ready-to-use liquids dosed by ORP.
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Choosing an Oxidant
How does mineral oxychloride compare to alternatives?
Chlorine, ozone, and chlorine dioxide are the established oxidants of the water-treatment world, and each has a place. But if you are evaluating mineral oxychloride chemistry, the questions come down to oxidation strength, whether a residual is left behind, how the product is handled, and what it costs to run.
Jenfitch mineral oxychloride sits at 2.8–2.9 V — second only to fluorine and above every conventional oxidant on this page — while shipping as a ready-to-use liquid dosed by ORP. The three comparisons below break down the trade-offs honestly.
Head-to-Head
Three comparisons.
vs. Chlorine
Far higher oxidation potential (2.8–2.9 V vs 1.36 V), no chlorinated by-products, and 12–24× the effectiveness against biofilm, bacteria, viruses, and spores.
See comparison
vs. Ozone
Ozone-class oxidation as a stable pourable liquid — no gas-generation train, plus a measurable ORP residual, at less than 1% of a conventional ozone system's cost.
See comparison
vs. Chlorine Dioxide
Higher oxidation potential (2.8–2.9 V vs 1.57 V), no on-site gas generation, ORP-controlled dosing, and a mild mineral-oxide residual.
See comparisonThe Benchmark
Oxidation potential of common oxidants.
| Oxidant | Oxidation potential (V) |
|---|---|
| Fluorine | 3.06 |
| Mineral oxychloride (JC 9465 / JC 9450) | 2.8–2.9 |
| Hydroxyl radical (•OH) | 2.80 |
| Ozone (O3) | 2.07 |
| Chlorine dioxide (ClO2) | 1.57 |
| Hypochlorous acid (HOCl) | 1.49 |
| Chlorine (Cl2) | 1.36 |
| Sodium hypochlorite (NaOCl) | 0.94 |
| Superoxide (O2−) | −2.40 |
Frequently Asked Questions
How do common oxidants compare?
Which oxidant is strongest?
By standard oxidation potential, fluorine leads at 3.06 V, followed by mineral oxychloride at 2.8–2.9 V — on par with the hydroxyl radical (2.80 V) and above ozone (2.07 V), chlorine dioxide (1.57 V), and chlorine (1.36 V). Fluorine is not used as a water disinfectant, which makes mineral oxychloride the strongest practical oxidant on this list.
Is a residual left behind?
Ozone dissipates and leaves no residual. Mineral oxychloride leaves mildly biocidal mineral-oxide by-products that resist recontamination, and dosing is verified by a measurable ORP. Chlorine and chlorine dioxide also carry a residual, though of a different chemical character. Whether a residual is needed is one of the four questions worth asking when evaluating an oxidant, alongside oxidation strength, how the product is handled, and what it costs to run.
How do the costs compare?
For equivalent oxidation, mineral oxychloride runs at less than 1% of the cost of a conventional ozone system — largely by avoiding the capital and energy of generating and dissolving a gas. Against chlorine, lower dose requirements (inorganics below 1 mg/L per mg/L versus roughly 6 mg/L for chlorine) help offset a higher unit price.
Are chlorine, ozone, and ClO₂ still valid choices?
Yes. All three are established, well-understood technologies with decades of regulatory history. Chlorine remains the default residual disinfectant for distribution systems; ozone is widely used for taste, odor, and advanced oxidation; chlorine dioxide is valued for selective oxidation and biofilm penetration. Mineral oxychloride is a complementary or alternative option where their trade-offs become limiting.
How is mineral oxychloride dosed?
It is a 100% water-soluble, ready-to-use liquid dosed to a target oxidation-reduction potential (ORP) in millivolts. Roughly +600 mV establishes a disinfection barrier and +700 mV delivers a 6-log kill in under 10 seconds. Because the chemistry ships ready to use, there is no on-site generation step; the product is metered into the water and the ORP reading confirms that the target oxidation level is being held.